| Deliverable | Deliverable name | WP | Short name of lead parti-cipant | Type | Dissemination level | Delivery date |
|---|---|---|---|---|---|---|
| D1.1 | Optimum processing flow sheets for selective Sc leaching from BR | 1 | NTUA | R | PU | M32 |
| D1.2 | Optimum processing flow sheets for Sc extraction from TiO2 industrial by-products | 1 | FHNW | R | PU | M32 |
| D1.3 | Development of the SIR process for efficient Sc extraction from dilute streams | 1 | II-VI | R | CO | M32 |
| D2.1 | Publishable report on the application of the Sc extraction from BR in AoG | 2 | AoG | R | PU | M42 |
| D2.2 | Confidential report on the application of the Sc extraction from BR in AoG | 2 | AoG | R | CO | M42 |
| D2.3 | Publishable report on the application of the acid nanofiltration technology on TiO2 acid wastes in TRONOX | 2 | FHNW | R | PU | M42 |
| D3.1 | Publishable report on the innovative technologies for 99% pure Sc2O3 production | 3 | MEAB | R | PU | M42 |
| D3.2 | Publishable report on sustainable ScF3 production methods | 3 | KTH | R | PU | M42 |
| D4.1 | Publishable report on cacliothermic Sc and Al-Sc alloy production methods | 4 | RWTH | R | PU | M36 |
| D4.2 | Publishable report on electrolytic Sc and Al-Sc alloy production methods at high temperatures | 4 | SINTEF | R | PU | M36 |
| D4.3 | Publishable report on low temperature Sc and Al-Sc alloy production methods | 4 | NTUA | R | PU | M36 |
| D4.4. | Production of 3D printed component using Sc produced with optimum technology | 4 | AIRBUS | OTHER | PU | M42 |
| D5.1 | Environmental, health and safety controls that should be taken into account in SCALE technology development | 5 | BME | R | PU | M12 |
| D5.2 | LCA/LCC of SCALE technologies and case studies | 5 | FHNW | R | PU | M46 |
| D5.3 | Direct Fate and Eco-toxicity | 5 | BME | R | PU | M46 |
| D5.4 | Cost and techno-economic assessment for the SCALE value chain | 5 | ITRB | R | CO | M46 |
| D6.1 | European inventory of Sc containing by-products | 6 | BAM | R | PU | M30 |
| D6.2 | Cluster Communication Activities | 6 | NTUA | R | PU | M48 |
| D6.3 | International Communication Activities | 6 | ITRB | R | PU | M48 |
| D7.1 | Roadmap for a European Sc industry | 7 | ITRB | R | PU | M36 |
| D8.1 | Data Management Plan | 8 | KS | R | PU | M4 / 30 |
| D8.2 | SCALE website, logo and dissemination kit | 8 | ITRB | DEC | PU | M6 |
| D8.3 | Communication Plan | 8 | ITRB | R | PU | M6 |
| D8.4 | ERES 2020 Conference organization | 8 | NTUA | DEC | PU | M36 |
| D8.5 | Plan for the dissemination and exploitation of the project's results | 8 | ITRB | R | CO | M48 |
| D9.1 | SCALE consortium agreement | 9 | AoG | OTHER | CO | M1 |
| D9.2 | Project Management Manual with templates | 9 | KS | OTHER | CO | M3 |
| D9.3 | Innovation Management Procedures | 9 | ITRB | R | CO | M8 |
DELIVERABLES
WHAT IS SCANDIUM?
Scandium is a chemical element with symbol Sc and atomic number 21. A silvery-white metallic d-block element, it was discovered in 1879 by spectral analysis of the minerals euxenite and gadolinite from Scandinavia.
Scandium is a rare-earth metal, used in small amounts but with drastic effects on properties of matter. It is a key component in producing high strength Aluminium alloys used in aerospace and 3D printing as well as in Solid Oxide Fuel Cell (SOFC) applications.
SCANDIUM SUPPLY
SCALE PROJECT
